<la:option value="25">25</la:option>
                                            <la:option value="50">50</la:option>
                                            <la:option value="100">100</la:option>
                                            <la:option value="200">500</la:option>
                                            <la:option value="1000">1000</la:option>

	96:          {_SigNotify, "signal 96"},
	97:          {_SigNotify, "signal 97"},
	98:          {_SigNotify, "signal 98"},
	99:          {_SigNotify, "signal 99"},
	100:         {_SigNotify, "signal 100"},
	101:         {_SigNotify, "signal 101"},
	102:         {_SigNotify, "signal 102"},
	103:         {_SigNotify, "signal 103"},
	104:         {_SigNotify, "signal 104"},
	105:         {_SigNotify, "signal 105"},

        90             | 91    | true
        90             | 90    | true
        90             | 89    | false
        -1             | 0     | false
        -1             | 100   | false
        100            | 100   | true
    }

    def "knows when gc is thrashing (#rateThreshold <= #rate) #usageThreshold #usage #thrashing"(double rateThreshold, int usageThreshold, double rate, int usage, boolean thrashing) {
        given:

	return func(nspath string) (ns.NetNS, error) {
		return &mockNetNs{path: netNs}, nil
	}
}

func buildDryrunConf() string {
	return fmt.Sprintf(
		mockConfTmpl,
		"1.0.0",
		"1.0.0",
		"eth0",
		testSandboxDirectory,
		"",
		false,
		"iptables",
	)
}

func TestIPTablesRuleGeneration(t *testing.T) {
	cniConf := buildDryrunConf()

	customUID := int64(1000670000)

      CreateFunctionDefLibWithConstFunction("cluster_0");
  TF_ASSERT_OK(root.graph()->AddFunctionLibrary(fdef_lib));

  Node* call;
  TF_ASSERT_OK(
      MakeXlaCompiledKernel(root.graph(), "cluster_0", "C", 100, 100, &call));

  Node* write_op = MakeWrite(root, "write");
  root.graph()->AddControlEdge(call, write_op);

  std::unique_ptr<Graph> graph;
  Status failure_status = BuildXlaOps(root, fdef_lib, &graph);

func TestFindFileInfoInQuorum(t *testing.T) {
	getNFInfo := func(n int, quorum int, t int64, dataDir string, succModTimes []time.Time, numVersions []int) []FileInfo {
		fi := newFileInfo("test", 8, 8)
		fi.AddObjectPart(1, "etag", 100, 100, UTCNow(), nil, nil)
		fi.ModTime = time.Unix(t, 0)
		fi.DataDir = dataDir
		fis := make([]FileInfo, n)
		for i := range fis {
			fis[i] = fi
			fis[i].Erasure.Index = i + 1
			if succModTimes != nil {

				printf("%s: ", format[i]);
				printf(format[i], 1.0);
				printf(" ");
				printf(format[i], -1.0);
				printf("\n");
			}
		}

		Output:
			[%.2f]: [1.00] [-1.00]
			[% .2f]: [ 1.00] [-1.00]
			[%+.2f]: [+1.00] [-1.00]
			[%7.2f]: [   1.00] [  -1.00]
			[% 7.2f]: [   1.00] [  -1.00]
			[%+7.2f]: [  +1.00] [  -1.00]
			[% +7.2f]: [  +1.00] [  -1.00]
			[%07.2f]: [0001.00] [-001.00]

	benchmarkRWMutex(b, 0, 10)
}

// Borrowed from rwmutex_test.go
func BenchmarkRWMutexWorkWrite100(b *testing.B) {
	benchmarkRWMutex(b, 100, 100)
}

// Borrowed from rwmutex_test.go
func BenchmarkRWMutexWorkWrite10(b *testing.B) {
	benchmarkRWMutex(b, 100, 10)

	}

	// two set of requests
	//  - n1: this set will finish using this waitgroup before Wait is invoked
	//  - n2: this set will be in flight after Wait is invoked
	n1, n2 := 100, 101

	// so we know when all requests in n1 are done using the waitgroup
	n1DoneWG := sync.WaitGroup{}

	// so we know when all requests in n2 have called Add,
	// but not finished with the waitgroup yet.

        checkVersionsOrder("1.0-alpha-1-SNAPSHOT", "1.0-alpha-1");

        checkVersionsOrder("1.0", "1.0-1");
        checkVersionsOrder("1.0-1", "1.0-2");
        checkVersionsOrder("1.0.0", "1.0-1");

        checkVersionsOrder("2.0-1", "2.0.1");
        checkVersionsOrder("2.0.1-klm", "2.0.1-lmn");
        checkVersionsOrder("2.0.1", "2.0.1-xyz");

        checkVersionsOrder("2.0.1", "2.0.1-123");